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HS Code |
223129 |
| Cas Number | 376-28-3 |
| Molecular Formula | C9HF17O |
| Molecular Weight | 446.08 g/mol |
| Appearance | Colorless liquid |
| Boiling Point | 183°C at 760 mmHg |
| Density | 1.74 g/cm3 at 25°C |
| Melting Point | -26°C |
| Flash Point | >110°C |
| Solubility In Water | Insoluble |
| Chemical Classification | Perfluorinated alcohol |
| Refractive Index | 1.308 at 20°C |
| Purity | Typically ≥97% |
As an accredited 1H,1H-Perfluoro-1-Nonanol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 1H,1H-Perfluoro-1-Nonanol is supplied in a 25-gram amber glass bottle with a tightly sealed screw cap for safety. |
| Shipping | 1H,1H-Perfluoro-1-Nonanol is shipped in well-sealed, compatible containers, protected from moisture and heat. It should be handled as a hazardous material, following all local, national, and international regulations, including labeling and documentation. Transportation is typically via ground or air freight, with special attention to preventing leaks or accidental exposure. |
| Storage | 1H,1H-Perfluoro-1-Nonanol should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible materials such as strong oxidizers and acids. Keep out of direct sunlight and moisture. Ensure proper labeling and secondary containment to prevent leaks. Use appropriate personal protective equipment when handling and accessing the storage area. |
Applications of 1H,1H-Perfluoro-1-Nonanol in Industrial ManufacturingAs the actual manufacturer of 1H,1H-Perfluoro-1-Nonanol, we supply this specialized fluorinated alcohol to critical segments of global industry. Our raw material supports advanced downstream applications requiring high chemical stability, low surface energy, and resistance to wetting and soiling, helping formulators and processors meet exacting industry benchmarks and performance targets. The following summarizes key industrial use cases based on real-world production experience. 1. Fluorinated Surface Treatment Agents for Electronic ComponentsDownstream processors in the electronics sector rely on this material as a pivotal component in producing durable, water- and oil-repellent surface coatings for sensitive assemblies such as circuit boards, MEMS sensors, and connectors. Formulators integrate the fluorinated alcohol into silane or acrylic-based treatment systems, aiming to enhance surface insulation and minimize ionic contamination, which is critical during miniaturized device fabrication. These coatings must withstand harsh environmental and cleaning conditions, meeting the stringent reliability and safety requirements of high-performance electronics manufacturing. Industry compliance standards
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2. Oil- and Stain-Resistant Paper and Packaging CoatingsPaper converters leverage the wetting-resistant properties of this raw material to develop functional barrier coatings for food packaging, fast-food wraps, bakery liners, and industrial release papers. Its molecular structure disrupts oil and grease penetration, extending shelf life and preserving package integrity under demanding use. Processors select these coatings to comply with evolving sustainable food safety standards while providing high transparency and low odor, features strictly scrutinized during governmental and retail audits. Industry compliance standards
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3. Synthetic Leather and Technical Textile FinishingCoating technicians in PU synthetic leather and engineered fabric production employ this compound to raise the hydrophobic and oleophobic qualities of finished textiles. During the formulation of fluorocarbon-based finishing emulsions, its addition improves resistance to perspiration, laundry detergents, and soil, which is essential for automotive upholstery, outdoor apparel, and military applications. Strict control of end-product emissions is maintained to conform to progressive textile chemical management protocols required by both OEMs and regulatory authorities. Industry compliance standards
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4. Low-Surface-Energy Monomers for UV-Curable Industrial CoatingsFormulation chemists utilize this specialty alcohol as a reactive intermediate for synthesizing fluorinated acrylate monomers that impart low surface energy to UV-cured coatings. These monomers are introduced to boost anti-fouling, anti-graffiti, and anti-fingerprint properties of clear and pigmented coatings used on industrial panels, automotive parts, and display screens. Integration requires strict raw material traceability and adherence to environmental permitting, especially due to regulatory oversight concerning certain classes of fluorochemicals. Industry compliance standards
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5. Specialty Additive for Fluorinated Surfactant FormulationsProducers of specialty surfactants for firefighting foams, industrial cleaning, and etching fluids select this material to modulate surface tension and foaming properties. Its molecular profile allows precise tuning of wetting, spreading, and foam stability in concentrated and dilute systems, a key requirement in high-stakes environments such as oil platform safety and microelectronics cleaning. Chemical stewardship teams ensure strict conformity to global environmental regulations overseeing the use of long-chain fluorinated substances in downstream markets. Industry compliance standards
Typical usage ratio
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For over two decades working on the synthesis and purification of specialty fluorinated alcohols, it’s become clear that the performance a customer expects hinges on the true purity and traceability of each batch. 1H,1H-Perfluoro-1-Nonanol, also known as perfluorononanol or PFNA alcohol, brings a unique mix of attributes into fluorosurfactant and surface treatment chemistry. Chemists and R&D teams aiming for repeatable, high-value applications gravitate toward this C9 perfluorinated alcohol because it delivers a rare blend of high hydrophobicity and precisely controlled reactivity at the terminal alcohol. Our team has poured years into refining the distillation and purification protocols required to keep byproduct content under control—not only for regulatory compliance, but so that coatings and advanced materials absorb all the benefits promised by the compound’s chemical structure.
Every manager in a chemical plant knows that batch reproducibility matters as much as any data point on a certificate of analysis. Making 1H,1H-Perfluoro-1-Nonanol isn’t simply a reaction and a filtration step. You start from raw materials with full chain-length integrity, carry out the perfluorination using electrochemical or direct fluorination methods to keep unwanted branching at bay, and finish with thorough fractionation to separate out traces of shorter or longer chain homologues. Distinct signals in NMR and GC-MS checks tell us exactly if the molecule’s backbone is clean. Lab staff measure water and acid content down to the ppm level. From our vantage point, customers testing us in fluoropolymer dispersions or antistatic treatments soon spot the difference that careful separation brings—a more reliable wetting angle, real stability in emulsions, greater control over surface modification.
The specifications set for 1H,1H-Perfluoro-1-Nonanol didn’t start with a textbook or some unreachable reference list. Technicians, production supervisors, and quality assurance crews look at the requirements for their downstream users—purity over 98 percent, water under 500 ppm, clear and colorless liquid form, sometimes even customer-defined melting points for niche coatings projects. These figures reflect what actually lets the product behave as billed, not just what’s theoretically possible in a lab. The team in charge of packing, from bulk drums to laboratory bottles fitted with fluorinated liners, checks every delivery for leachables and deterioration. In our line of work, the operator’s vigilance trumps fancy equipment every day of the week. If a distillation is off by a few milliliters, the entire tank could drift outside ideal specs.
The companies who buy our 1H,1H-Perfluoro-1-Nonanol aren’t just collecting compounds to put in a warehouse. Working closely with their teams, we’ve observed firsthand how its presence in surface treatment chemistry allows for a leap in contact angle adjustments and oil repellency. 1H,1H-Perfluoro-1-Nonanol acts as a key raw material for fluorosurfactants, where it helps reduce surface tension in ways that traditional hydrocarbon-based alcohols simply can’t match. Across textile finishing, electronic coating, glass etching, and advanced membrane production, the downstream uses reveal the insight built into the molecule itself. Customers integrating it as a chain extender in specialty latexes or as a reactive intermediate in non-stick coatings keep in close touch with us because they expect every bottle to behave identically to the last.
It’s tempting to think that any perfluorinated alcohol with a similar structure will give you the same effect in formulations, but daily experience says otherwise. As a manufacturer, any small change in chain length or alcohol position drives shifts in physical properties and reactivity. 1H,1H-Perfluoro-1-Nonanol, by virtue of its nine fully fluorinated carbons, delivers a much more pronounced hydrophobic effect than its C6 or C8 homologues. This gives it a distinct edge in areas where lasting water, oil, or stain repellency is paramount. From our side, stripping out every trace of the C8 or C10 versions isn’t just about “tightening specs”—the downstream difference is real. Fluorosurfactant formulators using our C9 material report fewer surprises in performance, cleaner reaction endpoints, and extended shelf life in their coatings.
Everyone in development labs faces the temptation to cut costs with off-spec or recycled intermediates. Years out on the shop floor have taught us that downgrading purity in fluorinated alcohols causes more problems over time than it cures. Competitive products sourced out of third-party traders or unfamiliar plants may hit price targets, but they rarely deliver the batch-in, batch-out stability required for large-scale processes. We’ve seen customers turn to C8 or C10 perfluoroalcohols, only to find batch variation in surfactant formulations. The combination of our proprietary fluorination, strict chain separation, and integrated packing helps hold purity high and byproducts low. That lets users fine-tune wettability or chemical resistance properties down to the desired level, achieving effects that truly set their delivered coatings or membranes apart in the market.
In the chemical business, you quickly find that compliance isn’t a matter of ticking boxes—regulatory teams in every market want detailed breakdowns of what’s in their products. Long experience tells us that a steady stream of environmental scrutiny surrounds perfluorinated chemicals. Our people regularly audit byproduct management and effluent treatment systems, investing in technology that neutralizes trace contaminants at the point of manufacture. Open discussions with customers about substance registration, hazardous waste identification, and supply chain traceability are routine. Knowing there’s an expectation of total transparency, we keep batch records and analytical data accessible for every lot sold, preparing reports on request for downstream compliance documentation. Our efforts to minimize off-gassing, emissions, and cross-contamination demonstrate commitment to responsible manufacturing, not just regulatory requirement.
Technical clients often want to pin down the exact distinctions between 1H,1H-Perfluoro-1-Nonanol and similar chain-length fluorinated alcohols. Through hands-on trials and process optimization, we’ve observed that perfluorinated alcohols with different terminal groups, or those with incomplete fluorination, result in major changes to boiling points, solubility in organic or aqueous systems, and downstream reactivity. For example, perfluoropropanol or perfluorohexanol—shorter-chain analogues—can’t match the oil repellency or interfacial tension reduction seen from the C9 compound. The ability of 1H,1H-Perfluoro-1-Nonanol to attach selectively in block copolymer syntheses or in end-capping steps in fluorinated resins reflects not only its chemical identity, but the tight controls set during production.
Our business doesn’t run on claims; it runs on experience proven across thousands of batches. From each tank loaded to every sample analyzed, full traceability remains the backbone of our offering. If a client flags a concern, we retrace every step from the raw material selection through reaction, separation, and packaging. This habit arose not from regulation but from hard-won lessons. Small problems tackled early—like preventing hydrolysis or inadvertent chain scission—save major process shutdowns later. With every order, we give users more than a drum of chemical: they get supporting data files, real-time feedback on order status, and the benefit of a team that’s solved leakage, contamination, and off-gassing issues through direct intervention.
Chemical manufacturers committed to practical value don’t drop a product at the loading dock and walk away. When a customer calls in for support—be it a cloudy emulsion, off-spec pH shift, or unexpected reaction endpoint—our technical service teams dive into the background. With specialist staff drawing from years spent on both plant floors and customer R&D labs, issues get resolved by walking back through the whole process: was the material stored properly, did the formulation shift, do end groups behave as designed? Whether in person or through digital collaboration, we use applied knowledge to help partners reach their goals, be it a higher wetting angle, better film formation in textiles, or improved shelf stability in electronic coatings.
Markets keep evolving, and no chemical product can stay the same for long. Over the years we observed how expectations for purity, consistency, and chain-specificity have forced improvements nobody could have foreseen a decade ago. As research pushes for new uses in electronics, medical device coatings, or extreme thermal management materials, we’re pushing upgrades in purification techniques, solvent reduction, and energy management. The lessons learned in keeping 1H,1H-Perfluoro-1-Nonanol free from ionic contaminants or unwanted sidechains now help shorten development cycles and maximize usable yields for next-generation applications. Listening to customer feedback, experimenting with micro-scale separation, and tuning storage protocols all stem from frontline production learning, not theory alone.
Freshly made batches of 1H,1H-Perfluoro-1-Nonanol don’t reach customers until they pass storage and stability testing. Temperature cycling, compatibility checks with PTFE or FEP liners, and monitoring for any color or odor changes keep our product robust during transit. The constant focus on eliminating trace metals, dissolved gases, or moisture comes from years of listening to users who need to avoid triggers for decomposition in high-value applications. When issues turn up—like a cloudy fraction due to slight overexposure to ambient air—rapid response and corrective action define the difference between a supplier and a true manufacturer partner.
In technical hands, 1H,1H-Perfluoro-1-Nonanol shows its edge over related chemicals in several fields. Its use in electronics manufacturing drives the demand for superior dielectric properties, which the long fully-fluorinated chain supports better than shorter-chain alcohols. In stain-resistant fabric treatments, its structure offers deep-penetrating repellency, holding up under repeat laundering and mechanical stress. Thin-film manufacturers run repeat pilot tests, finding the trade-off for a higher chain length yields better uniformity and surface energy control. The lessons shared by end users, from bottling equipment design through to lab test sheets, feed directly back into process redesign and upgraded analytical checks at our facility.
Anyone with experience in fluorochemical manufacturing recognizes the main pain points: regulatory scrutiny, raw material variability, and end-use unpredictability. We’ve spent years addressing each. For regulatory hurdles, our compliance staff documents every step from raw feedstock through production, making audits smoother and paperwork quicker. Regarding feed variability, a multi-stage purification plan screens out off-spec material early, reducing the risk of batch rework. Downtime caused by formulation hiccups gets less frequent as batch consistency improves. For customers grappling with application obstacles, we deploy troubleshooting crew with firsthand process insight, helping diagnose and resolve not just the symptom but the root cause.
Manufacturing isn’t static—it benefits from tight client collaboration and relentless internal review. Our crews run routine evaluations on every step, from incoming raw material checks, through to in-line monitoring, and finishing with post-sale feedback collection. Problems get logged, dissected, and resolved—not “for future improvement” but for immediate process adjustment. Staff at every level keep eyes open for points where improved distillation or solvent handling can raise purity or output yields. Customer input, whether it comes from a coating line test or a materials science symposium, drives our annual plans for equipment investment and process redesigns.
The field won’t stand still. As industries chase lower emissions, greener processes, and stricter material limits, we’re investing in research for less hazardous fluorination alternatives and more energy-efficient fractionation. Ongoing lab trials open alternatives for chain extension, selective end-capping, and bio-based feedstocks. Work to lower the fluorine input per kilogram of finished material lets both us and our customers edge closer to sustainable operations. Training the next generation of technicians and chemists to see problems coming before they happen brings improvement not out of necessity, but as a daily practice in responsible manufacturing.
Long-term work on 1H,1H-Perfluoro-1-Nonanol compounds brings home a key lesson: attention to every detail and tight communication across teams builds true value. From analytical QC staff to shift operators and customer support personnel, everyone owns a share in what arrives at the client’s door. Each product bottle holds more than a reaction run—behind it sits a culture of transparency, vigilance, and adaptability, honed by the demands of industry partners in coatings, electronics, and high-performance materials science. While trends shift and market requirements grow stiffer, our commitment to making the best version of 1H,1H-Perfluoro-1-Nonanol stays grounded in years of lived experience and continual drive to perform better than yesterday.